Literature DB >> 7682211

The concentration jump method. Kinetics of vital staining of mitochondria in HeLa cells with lipophilic cationic fluorescent dyes.

G Irion1, L Ochsenfeld, A Naujok, H W Zimmermann.   

Abstract

Lipophilic cationic fluorescent dyes (D) specifically stain the mitochondria of living cells. A perfusion chamber for cell cultures is described, which can be used to determine the kinetics of vital staining of the mitochondria of single selected cells in situ. In these experiments styrylpyridinium dyes and cultures of HeLa cells were used. The dyes differ strongly in their lipophilic properties; Rm values and the partition coefficients Po/w between n-octanol (o) and water (w) were determined in order to characterize their lipophilicity. In the thermostat-regulated chamber the concentration of the dye CD can be increased from CD = 0 to CD > 0 within a few seconds (concentration jump). Thus, the time t = 0 for the beginning of the vital staining and the dye concentration in the cell medium during the staining experiment, CD = const., are unambiguously defined. The concentration of the dye, Cb, which is bound to the mitochondria (b), is proportional to the intensity of the fluorescence Ib. On the other hand, the free dye molecules (f) in the aqueous medium exhibit practically no fluorescence, I(f) << Ib. The intensity of the fluorescence I = Ib was measured as a function of time t; the measured values were corrected for photobleaching. The fluorescence intensity I(t) at first increases linearly with t and reaches a saturation value for t-->infinity. In the linear range of I(t) the flow J(o) = (dI/dt)o of the dye into the cell depends strongly on the dye concentration and increases linearly with CD. The concentration range CD = 10(-9)-10(-5) M at 37 degrees C was investigated. From the linear correlation between J(o) and CD it follows that the kinetics of the vital staining of mitochondria is controlled by diffusion. At t = 0 the flow of the xenobiotic agent through the cell membrane determines the rate of staining. The slope dJ(o)/dCD of the plot J(o) vs CD describes the efficiency of dye accumulation at the mitochondria and strongly increases with increasing lipophilicity of the dye molecules. Thus lipophilic dyes pass through the cell membrane more easily than less lipophilic molecules.

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Year:  1993        PMID: 7682211     DOI: 10.1007/bf00268024

Source DB:  PubMed          Journal:  Histochemistry        ISSN: 0301-5564


  21 in total

1.  An improved method to investigate staining kinetics in single cells.

Authors:  C Winzek; P Plieninger; H Baumgärtel
Journal:  Histochemistry       Date:  1987

2.  Condensation of aromatic aldehydes with alpha-picoline methiodide.

Authors:  A P PHILLIPS
Journal:  J Org Chem       Date:  1947-03       Impact factor: 4.354

3.  [Hydrophobic acridine dyes for fluorescent staining of mitochondria in living cells. 3. Specific accumulation of the fluorescent dye NAO on the mitochondrial membranes in HeLa cells by hydrophobic interaction. Depression of respiratory activity, changes in the ultrastructure of mitochondria due to NAO. Increase of fluorescence in vital stained mitochondria in situ by irradiation].

Authors:  M Septinus; T Berthold; A Naujok; H W Zimmermann
Journal:  Histochemistry       Date:  1985

4.  A microdensitometric method for the analysis of staining kinetics.

Authors:  D J Goldstein
Journal:  J Microsc       Date:  1980-08       Impact factor: 1.758

5.  Fluorimetry of mitochondria in cells vitally stained with DASPMI or rhodamine 6 GO.

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Journal:  Cell Biochem Funct       Date:  1983-10       Impact factor: 3.685

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Authors:  L V Johnson; M L Walsh; L B Chen
Journal:  Proc Natl Acad Sci U S A       Date:  1980-02       Impact factor: 11.205

7.  [Hydrophobic acridine dyes for fluorescence staining of mitochondria in living cells. 1. Thermodynamic and spectroscopic properties of 10-n-alkylacridine orange chlorides].

Authors:  M Septinus; W Seiffert; H W Zimmermann
Journal:  Histochemistry       Date:  1983

8.  Decreased uptake and retention of rhodamine 123 by mitochondria in feline sarcoma virus-transformed mink cells.

Authors:  L V Johnson; I C Summerhayes; L B Chen
Journal:  Cell       Date:  1982-01       Impact factor: 41.582

9.  In situ flow cytometric analysis of nonyl acridine orange-stained mitochondria from splenocytes.

Authors:  M H Ratinaud; P Leprat; R Julien
Journal:  Cytometry       Date:  1988-05

10.  Monitoring of relative mitochondrial membrane potential in living cells by fluorescence microscopy.

Authors:  L V Johnson; M L Walsh; B J Bockus; L B Chen
Journal:  J Cell Biol       Date:  1981-03       Impact factor: 10.539

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  6 in total

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Authors:  K Schneider; A Naujok; H W Zimmermann
Journal:  Histochemistry       Date:  1994-07

3.  Photoaffinity labelling with fluorescence detection. Dye accumulation at four mitochondrial proteins in HeLa and LM cells.

Authors:  K Schneider; H W Zimmermann
Journal:  Histochemistry       Date:  1994-02

4.  Spectroscopic and photophysical investigations on the nature of localization of rhodamine-123 and its dibromo derivative in different cell lines.

Authors:  L Villeneuve; P Pal; G Durocher; D Migneault; D Girard; R Giasson; A Balassy; L Blanchard; L Gaboury
Journal:  J Fluoresc       Date:  1996-12       Impact factor: 2.217

Review 5.  Visualizing Mitochondrial FoF1-ATP Synthase as the Target of the Immunomodulatory Drug Bz-423.

Authors:  Ilka Starke; Gary D Glick; Michael Börsch
Journal:  Front Physiol       Date:  2018-07-04       Impact factor: 4.566

6.  Modeling and simulation of diffusion and reaction processes during the staining of tissue sections on slides.

Authors:  Matthias Meinhardt; Adrian Ehrenhofer; Johannes D M Menning; Thomas Wallmersperger
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  6 in total

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